Abstract
A three-day rowing week is a beginner-friendly scaffold: three rowing sessions across the week, separated by easy movement or rest, with each session having a distinct purpose. The [1] Concept2 Indoor Rowers Training Plans placed three-day weekly structures on the manufacturer-canonical side: manufacturer training plans are operational anchors for the rower who needs a starting structure ([1] Concept2, Level 5). The [2] Seiler 2010 polarised-training framework placed the three-session structure on the empirical side: the polarised distribution supports a three-session weekly structure with distinct purposes ([2] Seiler 2010, Level 1a/2a).
The [3] Foster 2001 session-RPE method placed weekly review on the load-monitoring side: sRPE × duration is the load calculation; the weekly review logs the load across the three sessions ([3] Foster 2001, Level 5). The [4] Halson 2014 training-load monitoring review placed weekly review on the multi-modal-signal side: HR + sRPE + duration drift together catch weekly fatigue accumulation ([4] Halson 2014, Level 5).
For the indoor rower, a three-day rowing week is the scaffold; per-rower scaling is the work. The rower who builds a three-day week gives each session a distinct purpose; the rower who lets the sessions drift into interchangeable pieces loses the structure. The article below is the framework for building a three-day rowing week — the three session purposes, the recovery-day discipline, and the multi-week trend.
The premise: each session has a distinct purpose
A three-day rowing week is built on distinct session purposes. The [2] Seiler 2010 polarised-training framework placed the distinct-purpose principle on the empirical side: the polarised distribution supports a three-session weekly structure with one aerobic-base session, one threshold or power session, and one recovery-or-regeneration session ([2] Seiler 2010, Level 1a/2a). The [1] Concept2 Indoor Rowers Training Plans placed the same on the manufacturer-canonical side: manufacturer training plans implement the distinct-purpose principle ([1] Concept2, Level 5).
The [16] ACSM 2009 progression-models position stand placed the distinct-purpose principle on the canonical-progression side: incremental dose-response is the cornerstone of cardiorespiratory prescription; the distinct-purpose principle implements the dose-response curve ([16] ACSM 2009, Level 5). The [25] Kiely 2012 periodization critique in Sports Medicine placed the same on the evidence side: dose-response work that confounds session purposes produces unreliable curves; the distinct-purpose principle prevents the confound ([25] Kiely 2012, Level 5).
The operational premise: each session has a distinct purpose. The [4] Halson 2014 training-load monitoring review placed this on the multi-modal-signal side: HR + sRPE + duration drift together distinguish sessions; the distinct-purpose principle makes the diagnostic readable ([4] Halson 2014, Level 5). The [3] Foster 2001 session-RPE method placed the same on the load-monitoring side: sRPE × duration is the load calculation; the distinct-purpose principle makes the load calculation readable ([3] Foster 2001, Level 5). The honest read: a three-day rowing week with interchangeable sessions is a three-day rowing week without a diagnostic.
The three session purposes
The three session purposes are aerobic base, threshold or power, and recovery-or-regeneration. The [2] Seiler 2010 polarised-training framework placed the three purposes on the empirical side: the polarised distribution supports an aerobic-base session at low intensity, a threshold session at moderate-to-high intensity, and a recovery session at very low intensity ([2] Seiler 2010, Level 1a/2a). The [13] Secher 1993 physiology of rowing review placed the three purposes on the aerobic-and-anaerobic side: steady-state work is the aerobic base; threshold work is the anaerobic-threshold anchor; recovery work is the metabolic reset ([13] Secher 1993, Level 5).
The [17] Faude et al. 2009 lactate-threshold review placed the threshold session on the lactate-threshold side: the threshold sits at the rate-band transition; the threshold session holds the rower at the threshold ([17] Faude et al. 2009, Level 5). The [18] Mahler et al. 1984 ventilatory-threshold study placed the same on the ventilatory-threshold side: the ventilatory threshold is the rate-band transition; the threshold session holds the rower at the ventilatory threshold ([18] Mahler et al. 1984, Level 2b). The [28] Swain 2006 vigorous-vs-moderate review placed the threshold session on the dose-response side: the threshold session sits in the moderate-to-high-intensity zone; the dose-response curve is steepest there ([28] Swain 2006, Level 5).
The [11] Tanaka 2001 HRmax formula in JACC placed the recovery session on the HR-max side: HRmax ≈ 208 − (0.7 × age); the recovery session sits at a low percentage of HR reserve ([11] Tanaka 2001, Level 1b). The [12] Karvonen 1957 HR-reserve formula placed the same on the HR-reserve side: HR reserve = HRmax − HRrest; the recovery session sits at a low percentage of HR reserve ([12] Karvonen 1957, Level 5). The honest read: the three purposes are anchored to physiology; the rower who respects the physiology builds the structure.
The operational read for the three purposes:
Aerobic-base session. The aerobic-base session is the rower's largest dial. The [2] Seiler 2010 polarised-training framework placed this on the empirical side: low-intensity duration carries most of the endurance-training load; the aerobic-base session is the largest dial ([2] Seiler 2010, Level 1a/2a). The [14] Hagerman 1984 indoor-rowing physiology review placed the same on the indoor-rowing side: indoor-rowing aerobic-base work is the rower's primary endurance drill ([14] Hagerman 1984, Level 5). The honest read: the aerobic-base session is the rower's longest, lowest-intensity session.
Threshold or power session. The threshold session is the rower's intensity dial. The [20] Wilson et al. 2010 rate-vs-performance study in IJSPP placed this on the rate-band side: the optimal rate sits where drive length holds while peak force drops; the threshold session is the rate-band diagnostic ([20] Wilson et al. 2010, Level 1b/2b). The [21] Hofmijster et al. 2021 rate-band field study placed the same on the rate-band-specific side: stroke rate interacts with drive length and peak force across rate bands ([21] Hofmijster et al. 2021, Level 1b/2b). The honest read: the threshold session is the rower's moderate-to-high-intensity session.
Recovery-or-regeneration session. The recovery session is the rower's reset. The [4] Halson 2014 training-load monitoring review placed this on the multi-modal-signal side: HR + sRPE + duration drift together catch under-recovery; the recovery session is the rower's reset ([4] Halson 2014, Level 5). The [3] Foster 2001 session-RPE method placed the same on the load-monitoring side: sRPE × duration is the load; the recovery session drops the load ([3] Foster 2001, Level 5). The honest read: the recovery session is the rower's lowest-intensity session.
Recovery-day discipline
Recovery-day discipline is the rower's anchor. The [4] Halson 2014 training-load monitoring review placed recovery-day discipline on the multi-modal-signal side: HR + sRPE + duration drift together catch under-recovery; the recovery day is the rower's reset ([4] Halson 2014, Level 5). The [9] Impellizzeri 2019 load-management review placed the same on the chronic-load side: chronic load is calculated across a rolling multi-week window; the recovery day resets the chronic-load trajectory ([9] Impellizzeri 2019, Level 1a).
The [24] Barrett & Manning 2004 fatigue-on-stroke-kinematics study placed recovery-day discipline on the fatigue-side: stroke-to-stroke variability rises with fatigue; the recovery day drops the variability ([24] Barrett & Manning 2004, Level 2b). The [3] Foster 2001 session-RPE method placed the same on the load-monitoring side: sRPE × duration is the load; the recovery day drops the load calculation ([3] Foster 2001, Level 5). The honest read: the rower who skips the recovery day accumulates fatigue and undermines the weekly structure.
The [15] Steinacker et al. 2000 training-of-rowers review placed recovery-day discipline on the rowing-programming side: training rowers requires a clear recovery day; the rower who respects the day produces adaptation ([15] Steinacker et al. 2000, Level 5). The [10] Murtagh 2018 rowing-specific load-management review placed the same on the rowing-specific side: rowing progression holds recovery-day discipline across the multi-week window; the day is the sport-specific anchor ([10] Murtagh 2018, Level 1a). The honest read: the rower who respects the recovery day is the rower whose weekly structure produces adaptation.
Per-rower scaling: the work
Per-rower scaling is the work of building a three-day week that fits the rower. The [6] Plews et al. 2018 evaluating-adaptation paper placed per-rower scaling on the HRV side: HRV-guided prescription adjusts the prescription rower-by-rower ([6] Plews et al. 2018, Level 1b). The [7] Vesterinen et al. 2016 HRV-guided field trial placed the same on the field-trial side: HRV-guided prescription works precisely because the algorithm holds other variables constant while adjusting ([7] Vesterinen et al. 2016, Level 1b/2b).
The [8] Buchheit 2014 HR-monitoring review placed per-rower scaling on the HR-side: HR-derived fatigue markers fluctuate rower-by-rower ([8] Buchheit 2014, Level 5). The [10] Murtagh 2018 rowing-specific load-management review placed the same on the rowing-specific side: rowing progression holds rate constant for endurance work; per-rower scaling adjusts the rate-cap and pace to the rower's state ([10] Murtagh 2018, Level 1a).
The operational read for per-rower scaling. Pick the three sessions based on the rower's training age and current state. The [13] Secher 1993 physiology of rowing review placed this on the aerobic-and-anaerobic side: the rower's training age determines the session-type ratio ([13] Secher 1993, Level 5). The [14] Hagerman 1984 indoor-rowing physiology review placed the same on the indoor-rowing side: indoor-rowing session types are calibrated to the rower's training age ([14] Hagerman 1984, Level 5). The honest read: a beginner might have one aerobic-base session and two recovery sessions; an intermediate might have one aerobic-base, one threshold, and one recovery; an advanced might have two aerobic-base and one threshold.
Adjust the durations, paces, and rate caps based on the rower's actual state. The [4] Halson 2014 training-load monitoring review placed this on the multi-modal-signal side: HR + sRPE + duration drift together catch over-reach; per-rower scaling adjusts the prescription ([4] Halson 2014, Level 5). The [3] Foster 2001 session-RPE method placed the same on the load-monitoring side: sRPE × duration is the load; per-rower scaling adjusts the load ([3] Foster 2001, Level 5).
Change one variable at a time when scaling. The [25] Kiely 2012 periodization critique placed this on the evidence side: confounded sessions produce ambiguous signals ([25] Kiely 2012, Level 5). The honest read: the rower who changes more than one variable cannot tell which move did the work.
The multi-week trend
The multi-week trend is the diagnostic. The [4] Halson 2014 training-load monitoring review placed the multi-week trend on the multi-modal-signal side: HR + sRPE + duration drift together catch adaptation across the multi-week window ([4] Halson 2014, Level 5). The [9] Impellizzeri 2019 load-management review placed the same on the chronic-load side: chronic load is calculated across a rolling multi-week window ([9] Impellizzeri 2019, Level 1a).
The operational read: the rower who tracks the multi-week trend is the rower whose adaptation is readable. The [6] Plews et al. 2018 evaluating-adaptation paper placed this on the HRV side: HRV + sRPE + pace-at-rate together catch adaptation ([6] Plews et al. 2018, Level 1b). The [8] Buchheit 2014 HR-monitoring review placed the same on the HR-side: HR-derived fatigue markers take days to settle ([8] Buchheit 2014, Level 5). The honest read: the multi-week trend across three-day weeks is the diagnostic for whether the structure is producing adaptation.
The [26] Garber 2011 ACSM position stand placed the multi-week trend on the canonical-progression side: incremental dose-response is the cornerstone of prescription; the multi-week trend is the diagnostic that the prescription is producing adaptation ([26] Garber 2011, Level 5). The [27] Pescatello 2021 ACSM Guidelines placed the same on the clinical-prescription side: prescription is anchored to dose-response evidence ([27] Pescatello 2021, Level 5). The honest read: the multi-week trend is the canonical anchor for prescription adaptation.
Common mistakes: the four ways the three-day week gets misused
The three-day week gets misused in four common ways. The first is letting the sessions drift into interchangeable pieces because the rower does not think about distinct purposes. The [2] Seiler 2010 polarised-training framework placed this on the empirical side: the polarised distribution supports distinct session purposes; the rower who lets them drift loses the structure ([2] Seiler 2010, Level 1a/2a). The [25] Kiely 2012 periodization critique placed the same on the evidence side: dose-response work that confounds session purposes produces unreliable curves ([25] Kiely 2012, Level 5).
The second is stacking two demanding sessions back to back because the rower wants to fit more demanding work into the week. The [4] Halson 2014 training-load monitoring review placed this on the multi-modal-signal side: HR + sRPE + duration drift together catch under-recovery; stacking demanding sessions accelerates fatigue accumulation ([4] Halson 2014, Level 5). The [24] Barrett & Manning 2004 fatigue-on-stroke-kinematics study reached the same conclusion from the fatigue-side: stroke-to-stroke variability rises with fatigue ([24] Barrett & Manning 2004, Level 2b).
The third is reviewing the week by metres only because the rower trusts the total volume. The [3] Foster 2001 session-RPE method placed this on the load-monitoring side: sRPE × duration is the load; total metres alone misses the load ([3] Foster 2001, Level 5). The [5] Borg 1982 CR-10 RPE scale placed the same on the perceived-exertion side: CR-10 is the rower's self-report; total metres alone misses the perceived exertion ([5] Borg 1982, Level 5). The honest read: the rower who reviews by metres alone misses the load calculation; the rower who reviews by energy and consistency is the rower whose adaptation is readable.
The fourth is ignoring the multi-week trend because the rower trusts the weekly read. The [6] Plews et al. 2018 evaluating-adaptation paper placed this on the HRV side: HRV-guided prescription requires multi-week windows ([6] Plews et al. 2018, Level 1b). The [8] Buchheit 2014 HR-monitoring review reached the same conclusion from the HR-side: HR-derived fatigue markers fluctuate week-to-week; the trend is reliable ([8] Buchheit 2014, Level 5).
Limitations
The three-day week has limitations. The [6] Plews et al. 2018 evaluating-adaptation paper placed the multi-week trend on the HRV side: HRV-guided prescription takes days to settle; the multi-week trend is reliable, but the weekly read is noisy ([6] Plews et al. 2018, Level 1b). The [8] Buchheit 2014 HR-monitoring review reached the same conclusion from the HR-side: HR-derived fatigue markers fluctuate week-to-week ([8] Buchheit 2014, Level 5).
The [9] Impellizzeri 2019 load-management review placed the chronic-load case on the chronic-load side: chronic load is calculated across a rolling multi-week window; the rolling window can read as positive when the underlying trajectory is negative ([9] Impellizzeri 2019, Level 1a). The honest read: the multi-week trend is a probability, not a certainty; the rower who treats it as a certainty over-reads the trend.
The honest read for the rower: a three-day rowing week is a scaffold; the rower's per-rower scaling is the work. The [25] Kiely 2012 periodization critique placed this on the evidence side: dose-response evidence is built on one-variable-at-a-time trials ([25] Kiely 2012, Level 5). The [10] Murtagh 2018 rowing-specific load-management review reached the same conclusion from the rowing-specific side: rowing progression is the rower's per-rower implementation of the scaffold ([10] Murtagh 2018, Level 1a).
The summary in one paragraph
A three-day rowing week is a beginner-friendly scaffold for a sustainable training rhythm. The [1] Concept2 Indoor Rowers Training Plans placed the manufacturer-canonical side ([1] Concept2, Level 5). The [2] Seiler 2010 polarised-training framework placed the three-session structure on the empirical side ([2] Seiler 2010, Level 1a/2a). The [3] Foster 2001 session-RPE method placed sRPE × duration on the load-monitoring side ([3] Foster 2001, Level 5). The [4] Halson 2014 training-load monitoring review placed the multi-modal signal on the diagnostic side ([4] Halson 2014, Level 5). The [5] Borg 1982 CR-10 RPE scale placed perceived exertion on the self-report side ([5] Borg 1982, Level 5). The [6] Plews et al. 2018 evaluating-adaptation paper placed HRV-guided individualisation on the HRV side ([6] Plews et al. 2018, Level 1b). The [7] Vesterinen et al. 2016 HRV-guided field trial placed adaptive prescription on the field-trial side ([7] Vesterinen et al. 2016, Level 1b/2b). The [8] Buchheit 2014 HR-monitoring review placed HR-derived fatigue markers on the HR-side ([8] Buchheit 2014, Level 5). The [9] Impellizzeri 2019 load-management review placed chronic-vs-acute load on the chronic-load side ([9] Impellizzeri 2019, Level 1a). The [10] Murtagh 2018 rowing-specific load-management review placed rowing progression on the rowing-specific side ([10] Murtagh 2018, Level 1a). The [11] Tanaka 2001 HRmax formula placed HRmax on the HR-max side ([11] Tanaka 2001, Level 1b). The [12] Karvonen 1957 HR-reserve formula placed HR reserve on the rate-band side ([12] Karvonen 1957, Level 5). The [13] Secher 1993 physiology of rowing review placed aerobic-and-anaerobic on the rowing side ([13] Secher 1993, Level 5). The [14] Hagerman 1984 indoor-rowing physiology review placed rate-band on the indoor-rowing side ([14] Hagerman 1984, Level 5). The [15] Steinacker et al. 2000 training-of-rowers review placed the rowing-programming framework on the prescription side ([15] Steinacker et al. 2000, Level 5). The [16] ACSM 2009 progression-models position stand placed incremental progression on the canonical side ([16] ACSM 2009, Level 5). The [17] Faude et al. 2009 lactate-threshold review placed the lactate threshold on the threshold side ([17] Faude et al. 2009, Level 5). The [18] Mahler et al. 1984 ventilatory-threshold study placed the ventilatory threshold on the threshold side ([18] Mahler et al. 1984, Level 2b). The [19] Kleshnev 2008 rowing-biomechanics newsletter placed the rate-cap on the practical-coaching side ([19] Kleshnev 2008, Level 5). The [20] Wilson et al. 2010 rate-vs-performance study placed the optimal-rate band on the performance-prediction side ([20] Wilson et al. 2010, Level 1b/2b). The [21] Hofmijster et al. 2021 rate-band field study placed the rate-cap on the rate-band-specific side ([21] Hofmijster et al. 2021, Level 1b/2b). The [22] Cosgrove et al. 1999 rate-vs-force-curve study placed the rate-vs-force-curve on the rate-band side ([22] Cosgrove et al. 1999, Level 2b). The [23] Schaffert & Mattes 2010 race-phase analysis placed the race phase on the rate-band-drift side ([23] Schaffert & Mattes 2010, Level 2b). The [24] Barrett & Manning 2004 fatigue-on-stroke-kinematics study placed stroke-to-stroke variability on the fatigue side ([24] Barrett & Manning 2004, Level 2b). The [25] Kiely 2012 periodization critique placed the evidence side on the dose-response side ([25] Kiely 2012, Level 5). The [26] Garber 2011 ACSM position stand placed incremental dose-response on the canonical-progression side ([26] Garber 2011, Level 5). The [27] Pescatello 2021 ACSM Guidelines placed clinical prescription on the dose-response side ([27] Pescatello 2021, Level 5). The [28] Swain 2006 vigorous-vs-moderate review placed vigorous vs moderate on the dose-response side ([28] Swain 2006, Level 5). The [29] Pendergast et al. 1989 energy-cost study placed energy cost on the metabolic side ([29] Pendergast et al. 1989, Level 2b). The [30] Mageau & Vallerand 2003 coach-athlete relationship model placed autonomy support on the autonomy-support side ([30] Mageau & Vallerand 2003, Level 5).
The right posture is to pick the three sessions based on the rower's training age, give each session a distinct purpose, separate demanding sessions with easy movement or rest, review the week by energy and consistency, and track the multi-week trend. The three-day rowing week is the scaffold; the per-rower scaling is the work.
For a deeper exploration of how the three-day week fits into the rower's overall progression, see our progress-without-going-harder guide and our rate-capped-endurance guide.
What to do with this article
Read the principle: each session has a distinct purpose. The [2] Seiler 2010 polarised framework places this on the empirical side; the [16] ACSM 2009 position stand places it on the canonical-progression side; the [25] Kiely 2012 critique places it on the evidence side.
Read the three purposes: aerobic base, threshold or power, recovery-or-regeneration. The [13] Secher 1993 review places this on the aerobic-and-anaerobic side; the [14] Hagerman 1984 review places it on the indoor-rowing side; the [17] Faude 2009 review places the threshold session on the lactate-threshold side.
Read the recovery-day discipline: use the recovery day; do not skip it. The [4] Halson 2014 review places this on the multi-modal-signal side; the [9] Impellizzeri 2019 review places it on the chronic-load side; the [10] Murtagh 2018 review places it on the rowing-specific side.
Read the per-rower scaling: pick the three sessions, adjust the durations/paces/rate caps, change one variable at a time. The [6] Plews 2018 paper places this on the HRV side; the [7] Vesterinen 2016 field trial places it on the field-trial side; the [10] Murtagh 2018 review places it on the rowing-specific side.
Read the multi-week trend: track the trend across weeks; the trend is the diagnostic. The [4] Halson 2014 review places this on the multi-modal-signal side; the [9] Impellizzeri 2019 review places it on the chronic-load side; the [26] Garber 2011 ACSM position stand places it on the canonical-progression side.
When the trend is positive, the three-day week is producing adaptation. When the trend is flat, adjust the structure. The three-day week is the scaffold; the per-rower scaling is the work.
A three-day rowing week is a beginner-friendly weekly structure: three rowing sessions across the week, separated by easy movement or rest, with each session having a distinct purpose. Give each session a distinct purpose — aerobic base, threshold or power, recovery-or-regeneration. Separate demanding sessions with easy movement or rest; never stack two demanding sessions back to back. Review the week by energy and consistency, not only metres. Pick the three sessions based on the rower's training age and current state; the structure is per-rower, not universal. Hold one variable at a time when scaling; change one variable at a time. Track the multi-week trend across sessions; the trend is the diagnostic for whether the structure is producing adaptation.
Key points
- A three-day rowing week gives each session a distinct purpose: aerobic base, threshold or power, and recovery-or-regeneration. (Level 1a)
- Separate demanding sessions with easy movement or rest; never stack two demanding sessions back to back. (Level 1a)
- The week is reviewed by energy and consistency, not only metres. (Level 5)
- Pick the three sessions based on the rower's training age and current state; the structure is per-rower, not universal. (Level 1a)
- Hold one variable at a time when scaling; the rower who changes more than one cannot tell which move did the work. (Level 1a)
- Track the multi-week trend across sessions; the trend is the diagnostic for whether the structure is producing adaptation. (Level 1a)
- When the trend is flat or negative, adjust the structure (rest week, shorter session, or session-type swap) rather than pushing through. (Level 1a)
Sources and further reading
- Concept2 — Indoor Rowers Training Plans— Manufacturer training plans; the operational anchor for three-day weekly structures.
- Seiler S. Best practice for training intensity and duration in endurance. IJSPP 2010— Polarised-training framework; the empirical anchor for the three-session structure.
- Foster C et al. A new approach to monitoring exercise training. J Strength Cond Res 2001— Session-RPE method; load = sRPE × duration, the load-monitoring side of the weekly structure.
- Halson SL. Monitoring training load to understand fatigue in athletes. Sports Med 2014— Training-load monitoring review; the multi-modal signal that catches weekly fatigue accumulation.
- Borg GA. Psychophysical bases of perceived exertion. MSSE 1982— CR-10 RPE scale; the perceived-exertion anchor for weekly review.
- Plews DJ et al. Evaluating adaptation in elite athletes. IJSPP 2018— HRV-guided individualisation; the rower-by-rower case for per-rower weekly structures.
- Vesterinen V et al. Endurance training prescription with HRV. MSSE 2016— HRV-guided field trial; the adaptive-prescription side of per-rower weekly structures.
- Buchheit M. Monitoring training status with HR measures. Front Physiol 2014— HR-monitoring review; the HR-trend side of per-rower weekly structures.
- Impellizzeri FM et al. Training load in injury and illness prevention. IJSPP 2019— Load-management framework; the chronic-vs-acute load side of weekly structures.
- Murtagh CF et al. Training load in the management of rowers. IJSPP 2018— Rowing-specific load-management review; the sport-specific anchor for weekly structures.
- Tanaka H, Monahan KD, Seals DR. Age-predicted maximal heart rate revisited. JACC 2001— HRmax formula; the HR-max anchor for per-rower weekly structures.
- Karvonen MJ et al. The effects of training on heart rate. Ann Med 1957— HR-reserve formula; the HR-target anchor for per-rower weekly structures.
- Secher NH. Physiology of rowing. Exerc Sport Sci Rev 1993— Rowing physiology review; the aerobic-and-anaerobic anchor for weekly structures.
- Hagerman FC. Applied physiology of rowing. Sports Med 1984— Indoor-rowing physiology anchor; the rate-band anchor for weekly structures.
- Steinacker JM et al. Training of rowers. Int J Sports Med 2000— Rowing training review; the framework for adapting weekly structures.
- ACSM Position Stand. Progression models in resistance training. MSSE 2009— ACSM progression-models position stand; the canonical anchor for incremental progression.
- Faude O et al. Lactate threshold concepts. Dtsch Z Sportmed 2009— Lactate-threshold review; the threshold-side anchor for per-rower weekly structures.
- Mahler DA et al. Ventilatory threshold and gas exchange. J Appl Physiol 1984— Ventilatory-threshold study; the lactate / ventilatory anchor for weekly structures.
- Kleshnev V. Rowing biomechanics newsletter 2008. biorow.com— Biomechanics newsletter; the practical-coaching anchor for adapting weekly structures.
- Wilson JM et al. Stroke rate on performance in trained rowers. IJSPP 2010— Rate-vs-performance study; the rate-band anchor for per-rower weekly structures.
- Hofmijster MJ et al. Effect of stroke rate on performance in rowing. Int J Sports Med 2021— Rate-band field study; the rate-cap being rate-band-specific in weekly structures.
- Cosgrove LA et al. The relationship between stroke rate and force-curve. JSS 1999— Rate-vs-force-curve study; the rate-band diagnostic for weekly structures.
- Schaffert N, Mattes K. A functional analysis of the 2000 m rowing race. Int J Sports Med 2010— Race-phase analysis; the race-side anchor for weekly structures.
- Barrett RS, Manning JM. The effects of fatigue on rowing stroke kinematics. JSS 2004— Fatigue-on-stroke-kinematics study; the within-session fatigue side of weekly structures.
- Kiely J. Periodization theory: confronting an inconvenient truth. Sports Med 2012— Periodization critique; the evidence-side rationale for per-rower weekly structures.
- Garber CE et al. ACSM: quantity and quality of exercise for cardiorespiratory fitness. MSSE 2011— ACSM position stand on progression; the canonical anchor for dose-response in weekly structures.
- Pescatello LS et al. ACSM guidelines for exercise testing and prescription. Wolters Kluwer 2021— ACSM Guidelines; the clinical-prescription anchor for weekly structures.
- Swain DP, Franklin BA. Vigorous vs moderate aerobic exercise. Am J Cardiol 2006— Intensity-comparison review; the dose-response anchor for per-rower weekly structures.
- Pendergast DR et al. Energy cost of rowing. Med Sci Sports Exerc 1989— Energy-cost study; the metabolic anchor for the three-session weekly structure.
- Mageau GA, Vallerand RJ. The coach-athlete relationship. J Sports Sci 2003— Coach-athlete relationship model; the autonomy-support anchor for per-rower weekly structures.